The umbilic theory of entanglement and quantum gravity

 Abstract: The central contribution is the construction of a multisegment, nonorientable geometric framework that treats quantum entanglement and quantum gravity as dual manifestations of a common topological field, with Weyl information providing the proposed conserved bridge between their quantum, gravitational, and thermodynamic descriptions developing a multisegment umbilic theory of quantum entanglement and quantum gravity based on a nonorientable topological manifold and a unified projective geometric algebra framework. The theory interprets quantum states and spacetime geometry as dual projections of a common multivector field, and proposes that their apparent separation arises from the use of local orientable descriptions for globally connected phenomena. Locally two sided segments are globally coupled through a Mobius strip structure, providing a topological interpretation of quantum entanglement as global locality and of gravitational geometry as its macroscopic dual. The theory introduces Weyl information as a globally conserved, scale invariant quantity and formulates a generalized hierarchy in which the unified field equation degenerates into the Einstein field equation, the Dirac equation, and the Schrodinger equation under appropriate limiting conditions. Its multisegment form is further reformulated as a thermodynamic equation of state describing the relationship between quantum information and gravitational energy. Four components are identified: local entanglement, global gravitational geometry, information to energy conversion, and energy to information conversion. A central element is the Higgs-Maxwell demon, interpreted as a thermodynamic and topological interface between local quantum phase space and global gravitational structure. Through a Legendre duality between bundle and co-bundle descriptions, recording and erasing quantum states are associated respectively with the absorption and generation of physical geometric degrees of freedom. The framework therefore proposes an intrinsic connection between quantum mechanics, thermodynamics, entanglement, and gravity. The paper derives terrestrial and weak gravity limits in which the generalized theory reduces to conventional physics and proposes astronomical and laboratory experiments capable of falsifying its predicted information energy transduction and polytropic behavior.

Keywords: Einstein field equation; Higgs mechanism; Legendre duality; information-energy transduction; Majorana neutrinos; Maxwell demon; Möbius strip manifold; multi-segment theory of entanglement and quantum gravity; nonorientable topology; polytropic equation of state; projective geometric algebra (PGA); quantum entanglement; quantum gravity; quantum information spacetime geometry; Schrodinger equation; thermodynamics;  topological locality; umbilic theory; Weyl information

https://papers.ssrn.com/sol3/papers.cfm?abstract_id=7394178

Umbilic Thermodynamics

 https://vasil7penchev.wordpress.com/wp-content/uploads/2026/08/umbilic-thermodynamics-2.pdf

Abstract:This paper develops umbilic thermodynamics, a generalized thermodynamic framework based on the conservation

of dimensionless, scale-invariant Weyl information across a non-orientable Möbius topology. Within a conformal

projective geometric algebra (PGA) formulation, probability-distribution shapes and pseudo-Riemannian metric

shapes are interpreted as grade-dual projections of a single underlying structure, linking microscopic phase

entropy with macroscopic metric stress-energy. A corresponding Weyl temperature is introduced to characterize

the conversion between these informational and geometric manifestations. The framework formulates four

principles of umbilic thermodynamics concerning symplectic-capacity equilibrium, global Weyl-information

conservation, topological entropy directionality, and the unattainability of global absolute zero. A singular

Legendre transformation at the Gromov symplectic boundary provides a local “backdoor” through which

phase-space compression and negative informational temperatures can produce localized metric stress-energy,

while global Weyl-information conservation prohibits net creation ex nihilo. The resulting generalized umbilic

ergodic theorem identifies local “creatio ex nihilo” events as recurrent, measure-preserving transfers between

dual phase sheets. Classical thermodynamics and quantum thermodynamics are recovered as limiting projections

of the generalized framework, while a statistical formulation is developed in Boltzmannian, Gibbsian, and

Einsteinian editions. The paper further proposes falsifiable experimental tests involving entangled quantum

systems, cryogenic cavities, superconducting qubits, and non-orientable photonic structures. Thus, umbilic

thermodynamics is presented as a unified topodynamical framework connecting information, entropy, quantum

phase structure, spacetime curvature, and thermodynamic evolution.

Keywords:umbilic thermodynamics; Weyl information; Weyl temperature; conformal projective geometric algebra;

Möbius topology; non-orientable manifold; Legendre transformation; Gromov symplectic capacity;

phase entropy; negative temperature; informational temperature; creatio ex nihilo; metric stress-energy;

generalized ergodic theorem; topodynamical dynamics; quantum thermodynamics; statistical thermodynamics;

quantum entanglement; spacetime curvature; thermodynamic duality.

The Umbilic Totality I:

 One proposes a scale-invariant, non-orientable topological model of the universe, called the umbilic totality, which unifies quantum mechanical dualities (bra/ket, state/apparatus, or derivatively, entanglement) and pseudo-Riemannian general relativity within a single mathematical (claiming to be ontomathematical) framework. By replacing standard 2 complex phase trigonometry via a 4 non-orientable Möbius strip (MS) topology,  one shows that quantum entanglement and covariant metric curvature emerge as grade-dual projections of a single projective geometric algebra (PGA) multivector field. One generalizes Gromov non-squeezing, Birkhoff ergodicity, and Noether’s theorem to non-orientable phase spaces, demonstrating that local metric energy fluctuations are balanced by a globally conserved topological action. One demonstrates that Occam’s razor strictly favors Majorana neutrinos over Dirac neutrinos under umbilic Fermi transformations, offering a clear empirical test for the model. The ontomathematical framework is designed to resolve the long-standing incompatibility between quantum mechanics and general relativity and  argues that this incompatibility stems from a fundamental topological misconception: using orientable, locally Euclidean structures rather than a global, scale-invariant, non-orientable topology. Using conformal projective geometric algebra (PGA), the framework replaces the conventional complex phase with a Möbius topology. Within this single multivector structure, physical concepts traditionally treated as distinct (such as particle versus field, metric curvature versus quantum state, bra versus ket vectors, and spacetime geometry versus phase space) are reinterpreted as complementary local projections of a single underlying geometric totality. The proposed generalized PGA-Einstein field equation establishes a mathematical hierarchy whose limiting cases naturally degenerate into the core equations of established physics: general relativity, the Dirac equation, and the Schrödinger equation. Crucially, a multi-segment degeneration simultaneously accounts for spacetime connectivity and non-local quantum correlations. Quantum entanglement is thus reinterpreted not as instantaneous action at a distance, but as continuous global locality across a non-orientable manifold, providing a topological explanation for Bell inequality violations. Beyond postdictions such as CPT-invariance and cosmological flatness, the model offers a series of experimentally or observably falsifiable predictions, providing concrete empirical criteria to validate or falsify the proposed framework.

Keywords: 4 non-orientable holonomy and topology; Bell - Tsirelson bound; bra-ket unification; chiral parity inversion (P-flip); conformal projective geometric algebra (PGA); contravariant-covariant duality; generalized PGA-Einstein field equation(s); Majorana neutrinos; Möbius strip topology; non-orientable phase space; ontomathematics; quantum gravity and entanglement correspondence; quantum mechanics foundations; real projective geometry (RP2); scale-invariant Weyl information conservation; spacetime Clifford algebra (Cl3,1); spinor-torsion coupling; topological entanglement; umbilic Fermi transformation; Umbilic Totality

https://dx.doi.org/10.2139/ssrn.7280720        https://papers.ssrn.com/sol3/papers.cfm?abstract_id=7280720